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Gate-Level Graph Representation Learning: A Step Towards the Improved Stuck-at Faults Analysis

机译:门级图形表示学习:迈向改进的卡在故障分析中的一步

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As the circuit implementation predominantly focuses on the higher density and performance with the technology scaling, more adverse types of faults and effects have been investigated by the system designers. Naive and compatible testing approaches are required to apprehend the emerging technological issues, and that will ensure high reliability and quality to the systems’ functional behaviors. The unidentified permanent faults, in particular stuck-at faults, have very adverse impacts on the functional quality of circuits under stressful workloads. This paper focuses on the single stuck-at faults simulation and proposing an Artificial-Intelligence (AI) based algorithm for the prediction of Functional Failure Rate (FFR) of each net (netlist wire) for a given set of input patterns. The statistical prediction also provides an improved way of estimating the Functional Fault Coverage (FFC) and the effectiveness of the input test vector. The introduced algorithm is an accelerated methodology which will significantly reduce the time complexity by 60%, while compared to the traditional exhaustive fault-injection approaches. The case study has been conducted with the gate-level circuit of the 10-Gigabit Ethernet MAC.
机译:由于电路实现主要侧重于具有技术缩放的较高密度和性能,因此系统设计人员已经研究了更不利的故障和效果。 Naive和兼容的测试方法需要逮捕新兴的技术问题,并将确保系统功能行为的高可靠性和质量。身份不明的永久性故障,特别是卡在故障中,对压力工作负载下的电路功能质量非常不利影响。本文侧重于单一卡在故障模拟,并提出基于人工智能(AI)的基于人工智能(AI),用于预测每个网络(网列线)的功能故障率(FFR),用于给定的一组输入模式。统计预测还提供了一种估计功能故障覆盖(FFC)的改进方式和输入测试向量的有效性。引入的算法是加速的方法,其将显着降低60%的时间复杂度,而与传统的详尽故障进气方法相比,相比。案例研究已经使用10千兆以太网MAC的栅极电平电路进行。

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